Abstract: A subterranean radio frequency (RF) heating system includes a first tubular member having a first end, a second end, and an inner surface. A second tubular member is arranged radially inwardly of the inner surface of the first tubular member. The second tubular member includes a first end portion, a second end portion, and an outer surface portion. A first electrically insulated spacer is arranged between the inner surface of the first tubular member and the outer surface portion of the second tubular member adjacent the first end and first end portion. A second electrically insulated spacer is arranged between the inner surface of the first tubular member and the outer surface portion of the second tubular member adjacent the second end and the second end portion.

Abstract: According to aspects of the present disclosure an example downhole tool may include a tool body and a first conformable sensor coupled to the tool body. The first conformable sensor may include a flexible material, with a transmitter and receiver coupled to the flexible material. The downhole tool further may include an arm extendable from the tool body and a pad coupled to the arm. The first conformable sensor may be coupled to the pad.

Abstract: An example method for downhole surveying and measuring may include receiving a measurement from a receiver of a conformable sensor, the measurement corresponding to a response of a downhole element to an electromagnetic signal generated by a transmitter of the conformable sensor. A parameter of the downhole element may be determined based, at least in part, on the received measurement. A visualization of a feature of the downhole element may be generated based, at least in part, on at least one of the received measurement and the determined parameter.

Abstract: An example method for making downhole measurements may include positioning a tool with a conformable sensor within a pipe in a borehole in a subterranean formation, and generating a first electromagnetic signal using at least one of a plurality of transmitters of the conformable sensor. A first response to the first electromagnetic signal may be measured using at least one of a plurality of receivers of the conformable sensor. At least one of a scale parameter, a pipe parameter, and a stand-off distance between the conformable sensor and the pipe may be determined using the first response.

Abstract: An example downhole tool may include a tool body and a first conformable sensor coupled to the tool body. The first conformation sensor may include a flexible material, a transmitter coupled to the flexible material, and a plurality of receivers coupled to the flexible material. The downhole tool may further include a control unit with a processor and a memory device coupled to the processor, the memory device containing a set of instructions that, when executed by the processor, cause the processor to output control signals to a first combination of the plurality of receivers corresponding to a first operating mode; and output control signals to a second combination of the plurality of receivers corresponding to a second operating mode.

Abstract: According to aspects of the present disclosure an example downhole tool may include a tool body and a first conformable sensor coupled to the tool body. The first conformable sensor may include a flexible material, with a transmitter and receiver coupled to the flexible material. The downhole tool further may include an arm extendable from the tool body and a pad coupled to the arm. The first conformable sensor may be coupled to the pad.

Abstract: An example method for making downhole measurements may include positioning a tool with a conformable sensor within a pipe in a borehole in a subterranean formation, and generating a first electromagnetic signal using at least one of a plurality of transmitters of the conformable sensor. A first response to the first electromagnetic signal may be measured using at least one of a plurality of receivers of the conformable sensor. At least one of a scale parameter, a pipe parameter, and a stand-off distance between the conformable sensor and the pipe may be determined using the first response.

Abstract: An example method for downhole surveying and measuring may include receiving a measurement from a receiver of a conformable sensor, the measurement corresponding to a response of a downhole element to an electromagnetic signal generated by a transmitter of the conformable sensor. A parameter of the downhole element may be determined based, at least in part, on the received measurement. A visualization of a feature of the downhole element may be generated based, at least in part, on at least one of the received measurement and the determined parameter.

Abstract: An example downhole tool may include a tool body and a first conformable sensor coupled to the tool body. The first conformation sensor may include a flexible material, a transmitter coupled to the flexible material, and a plurality of receivers coupled to the flexible material. The downhole tool may further include a control unit with a processor and a memory device coupled to the processor, the memory device containing a set of instructions that, when executed by the processor, cause the processor to output control signals to a first combination of the plurality of receivers corresponding to a first operating mode; and output control signals to a second combination of the plurality of receivers corresponding to a second operating mode.